30S MICROSEMI | Alldatasheet
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rll, i, SERIES Aigo. Microsemi Corp. UR a, WN # me gioge eanerts MOUSE TPF UNF j SCOTTSDALE, AZ 7) ! YY / For more information call: / (602) 941-6300, DESCRIPTION/FEATURES 3 AMP © ECONOMICAL SERIES MEDIUM POWER © HIGH SURGE, 150 AMP MAXIMUM SILICON RECTIFIER ‘* UNIVERSAL REPLACEMENT FOR MANY GLASS, EPOXY, DIODES ENCAPSULATED, AND METALLIC RECTIFIERS PEAK REVERSE VOLTAGES THROUGH 1000 VOLTS VOLTAGE RATINGS Tia Wong ea Va > ie Braet Reve Revere Vohone ‘eltre Mi vi Part Number y= 65°C t0 17506 Tye 65°C to 1788E a 00 3081 100 100 ona ose 200 200 oes 00 Ea Cn os 3ose i 00 eco sonagn sass 00 00 oe esto 1009 1009 aa ELECTRICAL SPECIFICATIONS so = | : lenient 9.8 mm (075 m3) - [| Half cycle 50 Hz sine wave Following any rated ‘achece Tncheases yy Color Sand ve aif ele 60 Heine wave” VARM 20d follow ilo or Sime rectangular pulse ing surge = 0 Fon efor fain 18 T= 107s _With ated Vaquy eoptie folowiva (oe TERS srg. inal Ty 17500 Max. 2 for individual a6 1=10ms_ ith Vay = 0 following surae, evan 133 ToRame ital Tye 738 Raa = pe | [ia Reeemenesen | [Va SARA | ec MANICAL TRIAV) Max, average reverse current ‘Max, rated IF (ay). VF and Ty = 100°C. CHARACTERISTI [mo menmerrors [oo To [tae | SHA es mw iE CASE: Molded plastic use Flame i Retardant Epoxy. THERMAL-MECHANICAL SPECIFICATIONS TERMINALS: Axial leads, sol- ie ~ derable per MIL-STD-202, _tempersture range 510175 | °C _ . Method 208, Ta Mex sovsttmeeaire | Serer | oc POLARITY: Color band denotes Rinsc Max. internal thermal DE operation, doubleside cooled, measured 95 mm cathode. are is a. | Tagen Wom no MOUNTING POSITION: Any. 7-461
RATING AND CHARACTERISTIC CURVES BreEraessassaesseseeteeee 2) AES Fab ascescsetesrateetestateasers? & ECCEEECEE CHT TN rab tetetecte! : OUT ECA Ey MEASURED 95MM. fi =5Ss5eSse/esasassssssse=seeses| = COPE eee VW 0.375 na trom _T TI }iRscasseacrcescsesescssssesecces|
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z PETER pr [tf Saneeane| ? Woo HEE EEE eet CCE EEE & CEA SEEEEECCCEC AE fr MUU REE /RREOREOEEEDOESBEDCESS score EEE TT \\: aan wil. ' eS jsseccegessssteesses=:| oy i Assseee seaaaessscsanase=sssaaa| BEER EEC Te BEER ERE +H CCE T} Fig. 1 — Average Forward Current Vs. Lead Temperature Fig. 2 — Maximum Forward Voltage Vs. Forward Current at Heat Sinks, ¢ = 9.5 mm (3/8 Inch) (Single Phase Operation) FS SO GO OS 0 Cee Cpe beh eh ews epee ee go ea FRR aae mec festive,
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33 | FF: Fre Ma Ow OLE os See Scere mmm BLY Baao> dees ceescee [pe a ERR SERRE EE EES Maieiieaiiaeesstsss 7 on on # LIM) CT T_T LT, Fig, 3 — Maximum Forward Power Loss Vs, Forward Fig. 4 — Maximum Transient Thermal Impedance, Current (Sinusoidal Current Waveform) Junction-to-Lead, Vs. Pulse Duration LITE z 140! ~ T i RE arasy naten Loan conorrion 2 SS <H i! z | Pe LTS tele IT 5 ;
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Ee ae | Fig. 5 — Maximum Non-Repetitive Surge Current ‘Vs. Number of Current Pulses 7-62